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POLITECNICO DI TORINO Repository ISTITUZIONALE POLITECNICO DI TORINO Repository ISTITUZIONALE End-to-end approach to flexible and sustainable commercial spaceflight initiatives: Evaluation of operational scenarios, safety aspects, spaceports and associated economic Original End-to-end approach to flexible and sustainable commercial spaceflight initiatives: Evaluation of operational scenarios, safety aspects, spaceports and associated economic elements / Santoro, F.; Del Bianco, A.; Albino, V.; Viola, N.; Fusaro, R.. - (2019). ((Intervento presentato al convegno 70th International Astronautical Congress, IAC 2019 tenutosi a usa nel 2019. Availability: This version is available at: 11583/2837906 since: 2020-07-01T18:21:19Z Publisher: International Astronautical Federation, IAF Published DOI: Terms of use: openAccess This article is made available under terms and conditions as specified in the corresponding bibliographic description in the repository Publisher copyright (Article begins on next page) 04 August 2020 70th International Astronautical Congress (IAC), Washington D.C., United States, 21-25 October 2019. Copyright ©2019 by the International Astronautical Federation (IAF). All rights reserved. IAC-19-D6,3,4,x 49579 End-to-end approach to flexible and sustainable commercial spaceflight initiatives: evaluation of operational scenarios, safety aspects, spaceports and associated economic elements F.Santoroa*, A. Del Biancob, V. Albinoc, N.Violad , R.Fusaroe a ALTEC S.p.A., Torino, Italy, [email protected] a ALTEC S.p.A., Torino, Italy, [email protected] c Politecnico di Bari, Bari, Italy,[email protected] d Politecnico di Torino, Torino, Italy, [email protected] e Politecnico di Torino, Torino, Italy, [email protected] * Corresponding Author Abstract Multiple initiatives are going on today, aimed at developing new technologies for commercial exploitation of space. The potential benefits of widening up the access to space to a broader users community affect different applications ranging from space tourism to microgravity experimentation to astronauts and pilots training; moreover, in the new space economy users communities may include parties that do not traditionally operate in the space business but can take advantage of microgravity exploitation as an opportunity to carry out experimental activities with potential more significant outcome. The present paper initially approaches commercial access to space by evaluating different mission concepts, technologies and platforms such as suborbital spaceflight, orbital spaceflight, air launch and deployment of small satellites. In order to select the most promising alternative, trade off methodologies, making use of safety, cost and complexity as figures of merit are suggested for the specific case of the suborbital flight. Moreover, the paper describes the outcome of simplified mission simulations, encompassing both suborbital vehicle as well as satellite air launch trajectories predictions. The trajectories simulations can also provide useful inputs to the vehicle design and performance analysis and are instrumental to planning air space operations after lift off from the launch site, as well as to assess logistics and operational aspects. Thus, simulations of really operating environment provide the link to the Spaceport selection process aiming at defining an adequate operating base and a set of proper ground infrastructures that efficiently support in integrated fashion the execution of the planned activities with the selected platforms. An integrated end to end approach is also described, that basing upon the specific users’ needs identifies the appropriate platform and delivers the associated service matching the relevant goals. The paper finally discusses some economic and organizational aspects for developing a sustainable commercial spaceflight initiative. Ideas for next activities are drawn too, mainly focusing on trajectory validation simulation with real data coming from the initial test campaigns. Keywords: (commercial, space, microgravity, technologies, simulations, spaceport) Transportation Office: FAA/AST Acronyms/Abbreviations Figure of Merit FoM Aeroporti di Puglia S.p.A. ADP High Altitide Lighter Than Air HALTA American Institure of Aeronautics and AIAA International Civil Aviation Organization ICAO Astronautics International Space Station ISS Italian Space Agency ASI International Traffic in Arms Regulations ITAR Air Traffic Control: ATC International Telecommunication Union´s ITU Air Traffic Management ATM Intermediate Experimental Vehicle IXV Defence Advanced Research Project DARPA Low Earth Orbit LEO Agency Liquid Oxygen LOX German Aerospace Center DLR Medium Earth Orbit MEO Distretto Tecnologico Aerospaziale DTA Military Operating Area MOA European Aviation Safety Agency EASA New Mexico Spaceport Authority NMSA Ente Nazionale per l’Aviazione Civile: ENAC National Transportation Safety Board NTSB Ente Nazionale Assistenza al Volo ENAV Operations Services O/S Emergency Response Plans: ERP Reusable Launch Vehicles RLV Federal Aviation Administration/Space Synergistic Air - Breathing Rocket Engine SABRE D6,3,4, x 49579 Page 1 of 15 70th International Astronautical Congress (IAC), Washington D.C., United States, 21-25 October 2019. Copyright ©2019 by the International Astronautical Federation (IAF). All rights reserved. Safety Management Systems: SMS mathematical model approach to simulate trajectory [7] Short Takeoff and Landing SRL of a suborbital spaceflight system like the Virgin Sierra Nevada Corporation SLC Galactic and identifies two different kind of missions Suborbital Reusable Vehicle SRV related to both space tourism and microgravity Single Stage to Orbit SSTO experimentation. Section 5 decribes the main elements Technology Readiness Level TRL associated with the Ground Segment [8] to properly Telemetry and Telecommand TT&C support the relevant mission and focuses on specific United Space Alliance ULA elements like Ground Stations that are flexible enough Visual Flight Rules VFR to support different kinds of commercial missions. The Vertical takeoff and landing VTOL Ground Station can be an entry point to Countries that are willing to enter the space business and be part of both the main commercial and institutional programs. 1. Introduction Section 6 describes specific economic and In the recent years the commercial exploitation of space organizational aspects [21] associated to the commercial is significantly emerging through a breed of several viability of outfitting specific infrastructures and initiatives aimed at considering space as a significant services and can be used as an initial guideline to proving ground for a variety of applications, like testing develop most complex economical and commercial new technologies, carrying out microgravity approaches useful to achieve adequate fundings to experimentation, providing flight opportunities to space develop initial capabilities of space exploitation. tourists, and offering flexible access to space through different platforms [1]. Objective of the present paper is 2. Technologies for Commercial access to space to address the most important ways to allow commercial access to space, describe their main characteristics and 2.1 Virgin Galactic applications and match them to the relevant Spaceports The ultimate purpose of this vehicle is to carry space characteristics and associated Ground Infrastructures. tourist in a sub-orbital trajectory, in order to make them Specific examples will also be provided on initial appreciate some minutes in microgravity, floating in the business plan elements characterization to verify the cabin. Alternately another concept of operation is to commercial viability of specific ground infrastructures install a scientific payload, carrying a Payload Specialist in a new growing market. A very significant example is able to execute scheduled experiments. Figure 1 shows Spaceport America [2], the commercial operations base the typical Virgin Galactic Spaceflight system flight of Virgin Galactic, designed, built and operated by the profile [9], [10]. NMSA; Spaceport America is the world’s first purpose- built, commercial spaceport, intended to be the launch base of the global commercial spaceflight industry. Spaceport America is currently experiencing the relocation of specific Virgin Galactic workforce, flight and ground segment from the Mojave Spaceport [3] in preparation to start commercial operations.With Space Shuttle retirement in 2011, worldwide aerospace industry focused on new technologies aimed at developing innovative reusable Space Vehicles with the purpose of reaching the Karman line of 100 Km altitude and eventually prepare for the future generation transportation between different points on the Earth [4]. Figure 1: The Virgin Galactic SpaceShipTwo flight Section 2 is a survey of different mission concepts, profile [Credits: Virgin Galactic] technologies and platforms for commercial access to space [5], such as suborbital spaceflight, orbital The current Virgin Spaceplane is expected to spaceflight; HAPS stratospheric platforms are also accomplish only suborbital flights (not reaching LEO), addressed, that provide a suite of integrated services for landing at departure spaceport. both commercial and scientific applications in the high Take off is carried out by a Carrier called atmosphere. Section 3 describes some highlights on the WhiteKnight to whom the SpaceShip is anchored on the methodology to perform tradeoff of different missions bottom side (air-launch
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